Explore

American Fusion Company Proposes Gold Production from Mercury Using Nuclear Fusion

American Fusion Company Proposes Gold Production from Mercury Using Nuclear Fusion

American Fusion Company Proposes Gold Production from Mercury Using Nuclear Fusion

The Web Summit AI Startup That Doesn't Train Its Own Model Could Have an Advantage

The Web Summit AI Startup That Doesn't Train Its Own Model Could Have an Advantage

A new wave of AI startups is skipping the expensive process of training models from scratch. Here’s why that strategy might be a major advantage.

Physicists Find Evidence of Rare Particle Decay After 42 Years of Search

Physicists Find Evidence of Rare Particle Decay After 42 Years of Search

After more than four decades of searching, physicists have found experimental evidence of an exceedingly rare and unstable particle decay, occurring only once in ten billion events. The LHCb Collaboration announced this discovery in a seminar on November 3rd and in a preprint paper, detailing the potential detection of a B d meson decaying into a muon and an anti-muon. This meson, composed of a beauty quark and a down antiquark, is incredibly fleeting, decaying in one and a half trillionths of a second. The experiment, conducted at the Large Hadron Collider Beauty (LHCb) at CERN, leveraged recent upgrades to boost particle collision detection rates and machine learning techniques to enhance the signal-to-noise ratio. This evidence, combining data from 2011-2018 and 2024-2025, achieved a significance level of 3.2 sigma, indicating a low probability of it being a fluke.

Northwestern University Scientists Trap Single Antiparticle to Investigate Universe's Matter-Antimatter Asymmetry

Northwestern University Scientists Trap Single Antiparticle to Investigate Universe's Matter-Antimatter Asymmetry

Scientists at Northwestern University have successfully trapped a single anti-electron, known as a positron, for months, using a technique they call a 'one-positron quantum cyclotron.' This experimental breakthrough aims to investigate the universe's matter-antimatter asymmetry, a fundamental puzzle in cosmology. According to the Standard Model, matter and antimatter should have annihilated each other in equal measure after the Big Bang, leaving an empty universe. However, our universe is dominated by matter, implying an imbalance where one matter particle survived for every billion matter-antimatter pairs created. To study this, researchers captured positrons produced from the radioactive decay of sodium-22, guiding a single particle into a near-perfect vacuum and cooling it to 300 millikelvins above absolute zero. This process brought the particle to its quantum ground state, allowing scientists to study its quantum transitions using finely tuned microwaves. The goal is to compare the positron's magnetic...

Nuclear Transmutation for Gold Production Lacks Definitive Evidence, Posing Feasibility Questions

Nuclear Transmutation for Gold Production Lacks Definitive Evidence, Posing Feasibility Questions

The concept of producing gold through nuclear transmutation, specifically lead-to-gold conversion, is being discussed, but current sources indicate a lack of definitive evidence regarding its feasibility and practicality. One source mentions nuclear transmutation as a method for gold production but notes insufficient evidence for independent verification. Another source highlights the significant energy requirements and inherent challenges associated with nuclear reactions needed to transmute elements into gold. While CERN has produced minimal quantities of gold nuclei for research purposes via lead-ion collisions, this is not indicative of commercial production. The absence of comprehensive experimental methodologies and publicly established data on the quantity and purity of gold produced through such methods raises questions about its viability beyond theoretical or small-scale research applications.

Ole Miss Physicist Contributes to Nobel-Winning Neutrino Research

Ole Miss Physicist Contributes to Nobel-Winning Neutrino Research

Kayla DeHolton, an assistant professor of physics and astronomy at the University of Mississippi, has contributed to research recognized by the 2026 Nobel Prize in Physics. DeHolton is a member of the international IceCube Neutrino Observatory collaboration, whose principal investigator, Francis Halzen, was awarded the Nobel Prize. The IceCube collaboration focuses on studying neutrinos, often called 'ghost particles,' which are extremely light and rarely interact with matter. These particles are created in high-energy environments like blazars, stellar cores, and supernovas. The research utilizes a particle detector embedded nearly a mile and a half deep in Antarctic ice near the Amundsen-Scott South Pole Station. This detector allows scientists to trace the trajectories of neutrinos, helping them determine their cosmic origins. DeHolton emphasizes that understanding neutrinos provides insights into high-energy phenomena within and beyond our galaxy. She is continuing her work with the IceCube collaborati...

Marathon Fusion Claims Mercury-to-Gold Conversion, Faces Significant Commercial Hurdles

Marathon Fusion Claims Mercury-to-Gold Conversion, Faces Significant Commercial Hurdles

Marathon Fusion Claims Mercury-to-Gold Conversion, Faces Significant Commercial Hurdles

Tel Aviv and Stanford Researchers Develop AI Self-Teaching Method Without Human Data

Tel Aviv and Stanford Researchers Develop AI Self-Teaching Method Without Human Data

Researchers from Tel Aviv University (TAU) and Stanford University have developed a novel artificial intelligence training method that enables AI systems to learn and enhance their predictive capabilities without relying on human-generated content or external datasets. This new approach, announced by TAU, allows AI models to teach each other. Unlike conventional AI training, which typically requires vast amounts of existing information, this method permits models to build predictive skills before encountering real-world material. The researchers tested this concept by creating a training system with two AI models: one generated sequences of symbols, and the other predicted the next symbol. The training material was generated internally within the system, eliminating the need for external sources like written documents or photographs. As the exercises progressed, the generating model became more sophisticated at creating challenges, while the predicting model improved its abilities by solving these increasi...

MIT and UCSB Physicists Advance Theory on Quark-Gluon Plasma Structure

MIT and UCSB Physicists Advance Theory on Quark-Gluon Plasma Structure

Physicists at MIT and the University of California at Santa Barbara (UCSB) have developed a new theory to predict how relativistic particles, moving at nearly the speed of light, interact with fluids. This research builds upon Albert Einstein's 1905 theory of Brownian motion, which described how a particle's movement in a fluid reveals the fluid's microscopic structure. While Einstein's theory works for many fluids, it breaks down under the extreme conditions of quark-gluon plasma, the universe's first fluid, where particles move at relativistic speeds. The new theory calculates the strong nuclear force experienced by a heavy quark as it flies through a gas of weakly interacting quarks and gluons, predicting changes in its momentum. Their findings indicate that for relativistic particles, large 'kicks' from the fluid are more common and unevenly distributed than Einstein's bell-shaped curve predicted, suggesting that primordial quark-gluon plasma is more strongly interacting and liquid-like than previously...

Stanford Thesis Defense Explores Cryogenic Charge Sensing for Sub-MeV Dark Matter Searches

Stanford Thesis Defense Explores Cryogenic Charge Sensing for Sub-MeV Dark Matter Searches

Jadyn Anczarski, a Ph.D. Candidate at KIPAC, Stanford University, presented a thesis defense on 'Cryogenic Charge Sensing for Dark Matter Searches: Quantum Sensing and Narrow-Gap Materials.' The research addresses the challenge of detecting sub-MeV dark matter, a mass range largely unexplored due to the limitations of current semiconductor detectors, which have eV-scale bandgaps. The SPLENDOR Collaboration, where Anczarski conducts research, aims to synthesize novel narrow-gap semiconductors with bandgaps in the order of 10–100 meV. Detecting ionization in these materials requires a new detector platform capable of easily swapping candidate substrates without complex fabrication, while achieving sub-electron charge resolution. The thesis details the development of SPLENDOR’s first charge amplifier, a two-stage design based on low-noise cryogenic transistors (CryoHEMTs), which achieved a charge resolution of approximately 20 electrons, with a projected resolution of about 3 electrons. Additionally, it prese...

Perimeter Institute Details Quantum Error Correction Breakthroughs Enabling Practical Quantum Computing

Perimeter Institute Details Quantum Error Correction Breakthroughs Enabling Practical Quantum Computing

The Perimeter Institute reports significant advancements in quantum error correction, moving quantum computing closer to practical application after three decades of incremental progress. Michele Mosca, a professor at the University of Waterloo’s Institute for Quantum Computing and a founding member of Perimeter, initially doubted the feasibility of quantum computing due to the inherent fragility of quantum systems and the difficulty of error correction. However, the emergence of viable error correction techniques marked a 'conceptual leap,' shifting the field from impossible to almost impossible. Unlike classical bits, qubits exist in a superposition of states, making them highly susceptible to environmental noise. Quantum error correction methods address this by detecting errors without directly observing the qubit's state, which would destroy its superposition. Researchers use the Bloch sphere to visualize qubit states and identify errors by recognizing shifts into different subspaces, rather than simpl...

Theoretical Study Proposes Five-Dimensional Black Holes as Explanation for Dark Matter and Neutrinos

Theoretical Study Proposes Five-Dimensional Black Holes as Explanation for Dark Matter and Neutrinos

A theoretical study, published in Physical Review D, explores the possibility that five-dimensional black holes could explain the existence of dark matter and certain high-energy neutrinos. The research, involving scientists like Luis Anchordoqui of Lehman College and the CUNY Graduate Center, and Alek Bedroya of Princeton University, posits a 'dark dimension' scenario where space-time includes an additional spatial direction of micron-scale size. In this model, gravity can extend into this extra dimension, causing primordial black holes (PBHs) to behave differently than conventional four-dimensional black holes. These five-dimensional PBHs would be larger, colder, and longer-lived, potentially surviving for trillions of years, and could account for some or all of the matter identified as dark matter. The study also suggests a connection between the evaporation of these five-dimensional PBHs and the exceptionally energetic neutrino event KM3-230213A, observed by the KM3NeT/ARCA detector.